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Institute For Oil & Gas Training
OGI-1263 New

Welding Metallurgy and Weld Defects Analysis Training Course

Duration
5 days
CPD hours
15
Language
English
Next date
26 Oct 2026
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Overview

The Welding Metallurgy and Weld Defects Analysis Training Course from Institute For Oil & Gas Training develops the technical capabilities required to evaluate weld metallurgy, identify weld discontinuities, and understand the failure mechanisms that affect the integrity of oil and gas equipment, pipelines, pressure vessels, and structural components. This professional training course addresses the gap between routine welding inspection and the deeper metallurgical understanding needed to investigate defects, assess their significance, and support reliable engineering decisions throughout the asset lifecycle.

Welding is fundamental to the construction, modification, repair, and maintenance of oil and gas infrastructure. The quality of a welded joint depends on material composition, welding procedures, heat input, cooling conditions, joint preparation, and the control of fabrication variables. When these factors are not properly managed, defects and undesirable metallurgical changes compromise weld integrity, increase inspection requirements, and create risks for operational reliability. Understanding the relationship between welding processes and material behaviour allows organisations to address these concerns through evidence-based inspection, assessment, and corrective action.

The Welding Metallurgy and Weld Defects Analysis course examines how metals respond to welding and how these responses influence the properties and service performance of welded components. Participants explore the behaviour of carbon steels, alloy steels, stainless steels, and other materials commonly encountered in oil and gas facilities. The programme explains the metallurgical transformations that occur during welding, including changes in grain structure, hardness, toughness, residual stress, and susceptibility to cracking.

A central component of the course is the examination of the heat-affected zone, which is the region of the parent material influenced by welding heat without being melted. Changes in this region affect mechanical properties and influence susceptibility to cracking, brittle behaviour, and other forms of degradation. Participants learn to connect welding conditions with microstructural changes and recognise why the heat-affected zone requires particular attention during inspection and failure investigations.

The programme also provides a structured approach to identifying and analysing weld discontinuities. These include cracks, porosity, slag inclusions, lack of fusion, incomplete penetration, undercut, and other imperfections associated with welding processes and fabrication conditions. Participants examine the difference between identifying a discontinuity and determining whether it represents an unacceptable defect under the applicable acceptance criteria. This distinction is important because inspection findings must be interpreted against engineering requirements, material characteristics, service conditions, and the governing construction or inspection standard.

Metallurgical defects require more than visual identification. Their significance depends on their location, size, orientation, distribution, formation mechanism, and interaction with operational stresses and environmental conditions. The course therefore explores the relationship between weld defects, fracture behaviour, fatigue, corrosion, hydrogen-assisted cracking, and other failure mechanisms relevant to oil and gas operations. This approach supports more accurate defect evaluation and strengthens the connection between inspection findings and engineering decisions.

For operators, engineering contractors, fabrication facilities, and maintenance organisations, the ability to interpret welding-related damage has direct implications for asset integrity. Incorrect defect classification, incomplete investigations, or unsuitable repair decisions contribute to rework, unplanned maintenance, delayed commissioning, and recurring equipment problems. A stronger understanding of weld metallurgy enables personnel to recognise the limitations of inspection findings, request appropriate supplementary examinations, and communicate technical concerns effectively to materials engineers, welding specialists, and inspection teams.

Delivered by Institute For Oil & Gas Training, this course combines practical metallurgical principles with industry-relevant inspection and failure analysis scenarios. It equips participants to evaluate weld quality systematically, interpret evidence from non-destructive testing, understand material-related failure mechanisms, and support technically defensible decisions across fabrication, commissioning, operation, and maintenance activities.

Objectives

  • Explain the fundamental principles of weld metallurgy and their significance for oil and gas equipment integrity.

  • Distinguish between the fusion zone, heat-affected zone, and unaffected parent material.

  • Assess how welding parameters, material composition, and cooling conditions influence microstructure and mechanical properties.

  • Identify common weld discontinuities and understand the mechanisms responsible for their formation.

  • Differentiate between an observed discontinuity and an unacceptable defect under the relevant acceptance criteria.

  • Interpret the significance of cracks, porosity, inclusions, lack of fusion, incomplete penetration, and surface imperfections.

  • Explain the relationship between welding practices, hardness variations, residual stresses, and cracking susceptibility.

  • Recognise metallurgical defects associated with hydrogen-assisted cracking, fatigue, brittle fracture, and other failure mechanisms.

  • Understand the capabilities and limitations of common non-destructive testing methods used to evaluate welded joints.

  • Apply relevant welding, inspection, and material standards when reviewing weld quality and defect acceptance.

  • Evaluate welding-related failure evidence and identify the additional information required for a reliable investigation.

  • Contribute to repair assessments, corrective action planning, inspection reviews, and quality assurance activities.

  • Improve technical communication between welding, inspection, materials, maintenance, and operations personnel.

  • Support consistent engineering decisions that strengthen asset integrity, reduce avoidable rework, and improve the reliability of welded components.

Training methodology

Institute For Oil & Gas Training uses an applied, industry-focused methodology that connects welding metallurgy principles with the practical demands of oil and gas construction, inspection, maintenance, and asset integrity management. The delivery approach combines technical presentations, illustrated case studies, defect interpretation exercises, group discussions, and realistic engineering scenarios.

The emphasis is on understanding why defects form, how they affect material performance, and which evidence supports an appropriate response. Participants develop a structured approach to investigating welding problems rather than relying exclusively on defect names or visual appearance.

Applied Technical Presentations

Technical presentations establish the principles of weld metallurgy, material behaviour, heat transfer, solidification, microstructural transformation, and weld quality. Explanations connect these principles with practical issues involving pipelines, pressure-containing equipment, process plant components, storage facilities, and fabricated structures.

Illustrations of weld cross-sections and metallurgical features help participants understand the relationship between the fusion zone, heat-affected zone, and parent material. The sessions also examine how welding parameters and material characteristics influence hardness, toughness, residual stresses, and cracking susceptibility.

Weld Defect Case Studies

Case studies examine realistic welding problems involving fabrication, repair, inspection, and in-service equipment. Participants review reported defects, relevant inspection findings, welding information, and operating conditions to identify potential causes and assess the implications for component integrity.

The exercises encourage a distinction between an observed indication, a confirmed discontinuity, and a defect that fails an applicable acceptance criterion. Participants discuss how incomplete information affects engineering judgement and identify the additional evidence required to support a reliable conclusion.

Inspection Interpretation Exercises

Participants work with representative inspection findings involving visual testing, ultrasonic testing, radiographic testing, magnetic particle testing, and liquid penetrant testing. The exercises focus on understanding what each method reveals, the limitations of the evidence, and the relationship between an inspection indication and the underlying metallurgical condition.

These activities strengthen communication between welding inspectors, non-destructive testing personnel, materials engineers, and maintenance teams. They also reinforce the need to use qualified personnel, suitable procedures, and the acceptance criteria specified by the applicable project or inspection requirements.

Group-Based Failure Analysis

Group exercises explore failure mechanisms such as fatigue cracking, brittle fracture, hydrogen-assisted cracking, corrosion-related damage, and cracking associated with unsuitable welding practices. Participants examine how material properties, weld geometry, loading conditions, fabrication history, and service environments interact.

Each group develops a reasoned assessment of the likely damage mechanism and identifies the evidence needed to verify the proposed explanation. This process strengthens problem-solving, technical reporting, and multidisciplinary decision-making.

Practical Engineering Scenarios

Realistic scenarios place participants in situations involving weld rejection, recurring fabrication defects, repair planning, inspection findings, and equipment damage. They assess the immediate concern, establish relevant technical questions, identify suitable examinations, and determine when specialist engineering input is necessary.

The methodology supports direct application in the workplace by connecting metallurgical knowledge with inspection planning, repair evaluation, quality assurance, and asset integrity decisions. Participants leave with a clearer framework for investigating welding problems and communicating technically supported recommendations.

Organisational impact

Investing in Welding Metallurgy and Weld Defects Analysis training strengthens an organisation's ability to manage welded components throughout construction, commissioning, operation, and maintenance. The programme improves the technical basis for weld inspection, defect evaluation, repair planning, and failure investigation.

Improved Weld Quality and Fabrication Control

A sound understanding of weld metallurgy helps personnel recognise the relationship between welding procedures, material characteristics, heat input, and the formation of defects. This supports more effective reviews of fabrication records, welding procedure requirements, inspection results, and corrective actions.

Organisations benefit from earlier recognition of recurring defect patterns and a more structured approach to investigating their causes. Teams can use these findings to improve fabrication controls, address workmanship issues, and reduce the repetition of avoidable welding problems.

Reduced Rework and Repair Costs

Welding defects frequently require additional examination, repair, reinspection, and documentation. Poorly understood defect causes can lead to repeated repairs without resolving the underlying problem. Metallurgical knowledge helps personnel identify the likely origin of defects and determine which technical questions require further investigation.

The resulting improvement in defect evaluation supports better repair planning, more focused examinations, and more effective corrective action. Organisations can monitor progress through indicators such as weld rejection rates, repair frequency, repeat defect occurrences, non-conformance closure time, and inspection-related rework costs.

Stronger Asset Integrity Management

Welded joints form critical parts of pipelines, pressure vessels, tanks, process equipment, and structural systems. Defects that remain unidentified or inadequately assessed affect the ability to demonstrate component integrity and manage operational risks.

The course strengthens the contribution of welding inspection and materials expertise to asset integrity programmes. Personnel gain a clearer understanding of how defect characteristics, material properties, loading conditions, and service environments influence the significance of inspection findings.

This supports more informed discussions about fitness for service, engineering assessment, repair requirements, and continued operation. Decisions remain subject to the applicable technical assessment, authorised engineering review, and governing acceptance requirements.

More Effective Failure Investigations

A recurring weld failure often reflects an interaction between fabrication conditions, material behaviour, stress, and service exposure. Without a systematic investigation, organisations risk treating the visible damage while leaving the underlying cause unresolved.

The course develops a structured approach to identifying plausible failure mechanisms, reviewing available evidence, and determining the need for further testing or specialist analysis. This supports stronger root cause investigations, clearer technical reports, and corrective actions directed at the factors responsible for the failure.

Improved Inspection and Quality Assurance

A shared understanding of weld discontinuities improves the quality of discussions between inspection teams, welding engineers, quality personnel, and contractors. Participants learn to interpret findings within the context of applicable procedures and acceptance criteria rather than relying on isolated descriptions.

This improves the consistency of inspection reviews, non-conformance documentation, repair verification, and quality records. It also supports better coordination between fabrication and inspection activities, particularly where several contractors or technical disciplines contribute to the same project.

Better Safety and Compliance Support

Welding defects in pressure-containing or load-bearing components require appropriate technical assessment because their significance depends on the equipment, defect characteristics, and operating conditions. Stronger metallurgical awareness helps personnel recognise potentially serious findings and escalate them through the correct engineering and inspection processes.

The course supports compliance activities by improving understanding of relevant codes, standards, documented procedures, and acceptance requirements. It does not replace formal inspection qualifications, authorised engineering approval, or the organisation's established safety management arrangements.

Measurable Operational Improvement

Organisations can evaluate the practical contribution of the training through existing quality, maintenance, and asset integrity indicators. Relevant measures include weld repair rates, recurring defect trends, inspection rework, non-conformance closure times, investigation quality, and the proportion of corrective actions completed within agreed timescales.

Establishing a baseline before training and reviewing results afterwards helps management determine whether improved technical understanding is translating into better operational performance. The strongest results come from combining workforce capability development with consistent procedures, competent supervision, effective inspection, and documented engineering decision-making.

Personal impact

The course equips participants with practical knowledge that strengthens their ability to evaluate welding quality, understand material behaviour, and contribute to engineering decisions. It is particularly valuable for professionals who regularly review inspection reports, supervise fabrication activities, investigate defects, or support maintenance and asset integrity programmes.

Stronger Understanding of Weld Metallurgy

Participants develop a clearer understanding of the physical and metallurgical changes produced by welding. They learn how material composition, thermal cycles, cooling conditions, and welding practices influence the properties of the completed joint.

This knowledge enables them to explain why apparently similar welds exhibit different performance characteristics and why certain locations require additional inspection or technical assessment.

Improved Defect Recognition and Interpretation

Participants strengthen their ability to recognise common weld discontinuities and understand the possible causes behind them. They learn to consider defect location, orientation, size, distribution, and interaction with service conditions when interpreting inspection results.

This provides a more reliable basis for raising technical queries, reviewing non-conformance reports, and discussing defect significance with relevant specialists.

Better Failure Analysis Skills

The course introduces a systematic approach to examining welding-related failures. Participants develop the ability to connect physical evidence with possible failure mechanisms and distinguish between an initial observation and a supported technical conclusion.

These skills improve their contribution to root cause investigations, technical reporting, corrective action reviews, and discussions concerning component repair or replacement.

Greater Confidence in Cross-Functional Communication

Welding quality decisions involve several disciplines, including fabrication, inspection, metallurgy, materials engineering, maintenance, and operations. Participants gain a more precise technical vocabulary for communicating concerns, explaining evidence, and identifying information gaps.

This improves their ability to contribute to multidisciplinary reviews and communicate inspection findings to both technical colleagues and operational decision-makers.

Stronger Professional Capability

Participants strengthen the technical foundation required for responsibilities involving welding inspection, quality assurance, materials evaluation, fabrication supervision, and asset integrity support. They also develop a better understanding of when an issue requires specialist metallurgical testing, advanced non-destructive examination, or formal engineering assessment.

The knowledge gained supports professional development and helps individuals undertake welding-related responsibilities with a more systematic, evidence-based approach. The course provides a Certificate of Completion in accordance with the stated attendance requirements but does not independently confer a professional licence or statutory inspection authorisation.

Who should attend

  • Welding Inspectors: Strengthen their understanding of defect formation, weld acceptance, and the metallurgical factors affecting inspection findings.

  • Welding Engineers: Improve their ability to evaluate welding procedures, investigate defects, and assess the relationship between welding parameters and material performance.

  • Metallurgical and Materials Engineers: Develop a more focused understanding of weld microstructures, heat-affected zone behaviour, and welding-related failure mechanisms.

  • Non-Destructive Testing Personnel: Improve interpretation of inspection indications and understand the metallurgical context and limitations of examination results.

  • Quality Assurance and Quality Control Professionals: Strengthen weld quality reviews, non-conformance assessments, inspection documentation, and corrective action processes.

  • Pipeline Integrity Engineers: Improve their understanding of weld-related threats affecting pipeline construction, repair, inspection, and continued service.

  • Asset Integrity Engineers: Connect welding defect characteristics with equipment integrity assessments, repair decisions, and operational risk management.

  • Maintenance and Reliability Engineers: Improve their ability to assess welding-related damage and contribute to effective repair planning and recurring defect prevention.

  • Corrosion and Failure Analysis Specialists: Understand how welding conditions interact with corrosion exposure, cracking susceptibility, and other material degradation processes.

  • Fabrication and Construction Managers: Strengthen oversight of welding quality, defect prevention, inspection coordination, and fabrication non-conformance management.

  • Project Engineers and Project Managers: Improve their understanding of welding-related quality risks and the technical information required to manage fabrication and commissioning issues.

  • Inspection Supervisors and Coordinators: Improve coordination between examination activities, defect evaluation, reporting, and engineering escalation.

  • Technical and Operations Managers: Develop the technical awareness required to evaluate welding-related concerns and allocate appropriate engineering and inspection resources.

  • Contractor and Vendor Quality Representatives: Improve their ability to review welding documentation, communicate fabrication defects, and support consistent quality requirements across suppliers.

Course outline

This module establishes the metallurgical principles required to understand the performance of welded components in oil and gas facilities. Participants examine the relationship between base material composition, welding processes, heat input, solidification, cooling conditions, and the resulting microstructure of the weld.

The module also explores the fusion zone, heat-affected zone, and parent material as distinct regions with different thermal histories and material properties. Participants consider how variations in hardness, toughness, grain structure, and residual stress influence weld quality and the susceptibility of components to damage during fabrication and service.

  1. ASME Section IX

    • Establishes qualification requirements for welding, brazing, and fusing procedures and personnel within its scope.

    • Provides a framework for evaluating welding procedure qualification and welder or welding operator performance qualification.

    • Supports the controlled application of qualified welding procedures when used within the applicable construction code and project requirements.

    • Helps organisations maintain traceability between welding requirements, procedure documentation, and fabrication activities.

    Learning Outcomes

    • Explain the fundamental metallurgical principles governing welded joints.

    • Distinguish between the fusion zone, heat-affected zone, and parent material.

    • Describe how material composition and welding thermal cycles influence microstructure.

    • Explain the effects of cooling conditions, hardness variations, and residual stress on weld performance.

    • Recognise the importance of qualified welding procedures and controlled fabrication practices.

    • Identify metallurgical considerations that require attention during inspection and engineering assessment.

This module examines common weld discontinuities and the fabrication conditions associated with their formation. Participants review cracks, porosity, slag inclusions, lack of fusion, incomplete penetration, undercut, overlap, and other imperfections that affect welded joints.

The module distinguishes between the presence of a discontinuity and its classification as an unacceptable defect. Participants examine how acceptance decisions depend on the applicable construction code, inspection requirements, defect dimensions, location, and component service conditions. Particular attention is given to the need for accurate documentation, appropriate examination methods, and consistent application of acceptance criteria.

  1. API 1104

    • Provides requirements for welding steel pipelines and related facilities within its scope.

    • Addresses welding procedure qualification, welder qualification, and inspection of pipeline welds.

    • Includes provisions for evaluating weld imperfections against applicable acceptance criteria.

    • Supports consistent welding quality controls for pipeline construction and repair activities covered by the standard.

    Learning Outcomes

    • Identify common weld discontinuities and describe their formation mechanisms.

    • Explain the difference between a discontinuity and an unacceptable defect.

    • Assess the importance of defect size, position, orientation, and distribution.

    • Recognise fabrication practices associated with common welding imperfections.

    • Interpret defect findings against the appropriate project requirements and applicable acceptance criteria.

    • Explain the importance of accurate inspection records, defect classification, and technical escalation.

This module focuses on the heat-affected zone and the metallurgical changes that occur when the parent material experiences the thermal cycle of welding. Participants examine grain growth, local hardening, softening, changes in toughness, and the influence of material composition and cooling rate on weld performance.

The module also explores cracking mechanisms associated with welding and subsequent service. These include hydrogen-assisted cracking, solidification cracking, liquation cracking, and other forms of weld-related cracking. Participants examine how hydrogen exposure, restraint, residual stress, material susceptibility, and thermal conditions interact, and why identifying the probable mechanism is essential to selecting suitable corrective action.

  1. ISO 15614-1

    • Specifies requirements for qualification testing of welding procedures for arc and gas welding of steels and arc welding of nickel and nickel alloys within its scope.

    • Provides a structured basis for assessing whether a welding procedure produces joints with the required characteristics.

    • Addresses procedure qualification testing and the evaluation of relevant test results.

    • Supports the control of welding variables that influence joint quality and metallurgical performance.

    Learning Outcomes

    • Explain the formation and significance of the heat-affected zone.

    • Describe how thermal cycles influence grain structure, hardness, and toughness.

    • Identify factors that contribute to hydrogen-assisted cracking and other weld-related cracking mechanisms.

    • Distinguish between common cracking types based on their characteristics and formation conditions.

    • Evaluate the relationship between welding restraint, residual stress, material susceptibility, and cracking.

    • Identify the additional inspection or metallurgical evidence required to investigate suspected cracking.

    • Explain how welding procedure control and appropriate material selection support defect prevention.

This module examines the role of non-destructive testing in identifying and characterising weld discontinuities. Participants review the principles and applications of visual testing, radiographic testing, ultrasonic testing, magnetic particle testing, and liquid penetrant testing, with attention to their respective capabilities and limitations.

The module explains how inspection results contribute to metallurgical defect analysis without necessarily establishing the complete cause or severity of a defect. Participants consider the importance of examination procedures, personnel competence, equipment suitability, material characteristics, and inspection records. They also explore how supplementary testing, metallographic examination, hardness measurements, or engineering assessment supports the investigation of complex welding problems.

  1. ISO 17635

    • Establishes general rules for selecting non-destructive testing methods for welds in metallic materials.

    • Addresses the relationship between testing methods, material characteristics, weld type, and examination requirements.

    • Supports the selection of appropriate examination approaches for evaluating weld quality.

    • Helps inspection teams align testing activities with the applicable acceptance requirements and relevant method-specific standards.

    Learning Outcomes

    • Explain the role of non-destructive testing in weld defect identification and evaluation.

    • Compare the capabilities and limitations of common weld examination methods.

    • Interpret inspection findings within the context of weld geometry and material characteristics.

    • Recognise why an inspection indication does not always establish the underlying failure mechanism.

    • Identify situations that require supplementary examination or metallurgical investigation.

    • Improve the technical quality of inspection reviews, defect reports, and recommendations.

    • Understand the importance of following approved procedures and applicable personnel qualification requirements.

This module integrates the metallurgical and inspection principles covered throughout the programme into a structured approach to welding-related failure analysis. Participants examine failure mechanisms including fatigue, brittle fracture, hydrogen-assisted cracking, corrosion-related damage, and cracking associated with unsuitable fabrication or repair practices.

The module explores how to review physical evidence, fabrication records, material certificates, welding documentation, inspection reports, and operating history when investigating a failed or defective component. Participants consider the role of supplementary testing and specialist engineering assessment in establishing root causes. The final focus is on corrective action, repair evaluation, defect prevention, and the use of investigation findings to improve organisational welding quality and asset integrity.

  1. API 579-1/ASME FFS-1

    • Provides fitness-for-service assessment procedures for evaluating identified flaws and damage in pressurised equipment within its scope.

    • Supports engineering decisions concerning the continued operation of equipment containing specific forms of damage or degradation.

    • Provides a structured approach to assessing damage mechanisms, component condition, and the implications of identified flaws.

    • Requires suitable technical information and competent engineering assessment for application to relevant equipment and damage scenarios.

    Learning Outcomes

    • Explain common failure mechanisms affecting welded oil and gas components.

    • Relate observed damage to material properties, welding history, stress conditions, and service exposure.

    • Organise relevant evidence for a structured welding-related failure investigation.

    • Identify when supplementary non-destructive testing, metallurgical examination, or specialist analysis is required.

    • Distinguish between immediate corrective actions and measures addressing the underlying cause of a failure.

    • Explain the role of fitness-for-service assessment in evaluating applicable damage and flaws.

    • Contribute to repair planning, defect prevention, and the improvement of welding quality management.

    • Prepare technically supported findings and recommendations for engineering, inspection, maintenance, and asset integrity teams.

Certificate

Participants who successfully complete the Welding Metallurgy and Weld Defects Analysis Training Course receive a Certificate of Completion from Institute For Oil & Gas Training.

The certificate recognises completion of the training programme and participation in its professional development activities. Attendees must satisfy the institute's required attendance criteria to qualify for the certificate. The certificate confirms course completion and does not replace professional certification, statutory authorisation, or employer-specific competency requirements.

Course dates

  • Europe

    Middle East

    Asia

    Africa

    North America

    Online

    Fee: £4,500

  • Europe

    Middle East

    Asia

    Africa

    North America

    Online

    Fee: £4,500

  • Europe

    Middle East

    Asia

    Africa

    North America

    Online

    Fee: £4,500

  • Europe

    Middle East

    Asia

    Africa

    North America

    Online

    Fee: £4,500

Fees include tuition, course materials and refreshments. Need different dates or a different city? Ask about your preferred date.

Frequently asked questions

What is covered in the Welding Metallurgy and Weld Defects Analysis Training Course?

The course covers weld metallurgy, material behaviour, heat-affected zone characteristics, common weld discontinuities, cracking mechanisms, non-destructive testing, and welding-related failure analysis. It also examines relevant industry standards and practical approaches to defect evaluation, corrective action, and asset integrity management.

Who should attend this welding metallurgy training course?

The course is designed for welding inspectors, welding engineers, metallurgical engineers, non-destructive testing personnel, quality assurance professionals, pipeline integrity engineers, maintenance engineers, fabrication supervisors, and asset integrity specialists. It also benefits technical managers responsible for welding quality and equipment reliability.

How does the course help identify and analyse weld defects?

Participants learn to recognise common discontinuities, understand their formation mechanisms, interpret inspection findings, and evaluate defects against applicable acceptance criteria. The course also explains how metallurgical evidence, welding records, material properties, and operating conditions contribute to reliable failure investigations.

Which standards are addressed during the course?

The course references ASME Section IX, API 1104, ISO 15614-1, ISO 17635, and API 579-1/ASME FFS-1. These standards address welding procedure and personnel qualification, pipeline welding, welding procedure testing, non-destructive testing, and fitness-for-service assessment. Their application depends on the equipment, project requirements, and relevant governing codes.

Will participants receive a certificate after completing the course?

Yes. Participants who meet the required attendance criteria receive a Certificate of Completion from Institute For Oil & Gas Training. The certificate confirms completion of the training programme and does not replace professional certification, statutory authorisation, or employer-specific competency requirements.

Next: 26 Oct 2026

4 dates available

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